Collaborative Robotics Engineer

This role focuses on developing and implementing collaborative robotics solutions to assist in the manual disassembly of WEEE, enhancing efficiency and reducing physical strain on human workers.

Robotics Engineering

Proficiency in designing and programming robots for various disassembly tasks.

Human-Robot Interaction

Skills in creating systems that enable effective collaboration between robots and human workers.

Automation Integration

Experience in integrating robotics with AI systems to automate disassembly sequences.

Collaborative Robotics Enginee/Automation Integration Industrial Automation and Robotics

The goal of this study is training professionals for a position for installing, starting up and maintaining automated and robotized production (processes).

Provider
i4ms
Target
  • Engineers
  • Operators
Sector
  • Manufacturing and Automation
Area
  • Startup
  • maintenance of automated production systems
Method
online
Certification
-
Duration
Other
Assessment
-
Cost
free

Learning Outcomes

  • Solve the main doubts that the management teams face when implementing a Big Data strategy in their company. Thus, it is covered from a glance to practical cases in terms of exploitation and data analytics.

Learning Content

  • Introduction to Big Data
  • Data Analysis and Case Studies
  • Market Analysis
  • Credit Scoring
  • Predictive Maintenance


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Collaborative Robotics Engineer/Mechanical Engineering Design for Mechanical Assembly and Constraint Based Design

Designing a mechanical systems involves many considerations. From Functional requirements, Aesthetics, Durability to Manufacturing and Assembly with assembly being a key aspect in terms of performance and cost. Designing a system with assembly in mind requires an approach which focusses on the ease and speed of assembly. In a production setup where Time is money, efficient assemblies are very important. Learning about how to plan and design systems so that they can be easily manufactured and assembled is one of the key tasks for a design engineers. This course introduces the key concepts to be considered when designing for assembly. You will Learn: · The context of assemblies in larger product development - product architecture · What is modularity in assembly · Importance of assembly ease - Costs associated · Generic rules of Thumb and affect of Tolerances · Part count reduction · Handling, Insertion, Self aligning features · Poka yoke features · Case studies in Designing for assembly

Provider
udemy
Target
  • Design Engineers
  • Mechanical Engineers
  • Product Development Teams
  • Manufacturing Engineers
  • Engineering Students (Mechanical Design Focus)
Sector
  • Mechanical Engineering
  • Product Design and Development
  • Manufacturing and Assembly
  • Industrial Engineering
  • Automotive, Aerospace, and Consumer Products (specific industries may vary)
Area
  • Mechanical Systems Design
  • Assembly Design and Optimization
  • Product Architecture and Modularity
  • Tolerance and Constraint Analysis
  • Design for Manufacturing and Assembly (DFMA)
Method
online
Certification
yes
Duration
4.5 hours on-demand video
Assessment
no
Cost
€44.99

Learning Outcomes

  • Learn about the basic concepts of Designing for assembly
  • Importance of smooth assembly in design process
  • How to design for better insertion, alignment and reduction of parts
  • Design features for mistake proofing
  • Constraint based design approach
  • What are redundant constraints?
  • What is Exact, minimum and Over constraint

Learning Content

  • Introduction
  • Mechanical assembly in Design process
  • Principles in design and Rules of thumb
  • Case studies in basic Design for assembly
  • Introduction to Constraint based design
  • Under constraint, Over constraint and Redundancy in assembly
  • Exactly constrained designs and Minimum constraints
  • Nesting force and constraining in 2D
  • Examples in application of concept of constraint based design


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Collaborative Robotics Engineer/Human-Robot Interaction Introduction to Human-Robot Interaction

This course presents the fundamentals of a new area of research related to robotics called Human-Robot Interaction (HRI), which is based on the physical, cognitive, and social interaction between humans and robots. The HRI area focuses on understanding, designing, and evaluating the interaction between humans and robots that can communicate and/or share the physical space or workspace. The motivation for using HRI systems for an application where humans and robots can interact and cooperate is to reap the benefits of both worlds. For example, robots are great at performing repetitive and precise tasks, but they are not always useful for tasks that are complex or performed in unstructured environments. Humans, on the other hand, are excellent at complex manual tasks, have creativity, and excellent problem-solving skills, but tend to get tired or distracted easily. Among the main benefits of collaboration between humans and robots is to increase the productivity or efficiency of a process or a particular task, while reducing the workload of the human, and giving support to it in tasks that require it. The theoretical foundations of the course, as well as the applications and case studies presented, will serve as a basis for students and professionals to work or investigate various applications that are not easy to fully automate, and that can benefit from interaction and cooperation between humans and robots.

Provider
udemy
Target
  • Undergraduate engineering students
  • Graduate engineering students
  • Robotics researchers
  • Professionals in technology and innovation companies
Sector
  • Robotics
  • Engineering
  • Technology and Innovation
Area
  • Human-Robot Interaction (HRI)
  • Automation
  • Cooperative Robotics
Method
online
Certification
yes
Duration
4 hours on-demand video
Assessment
no
Cost
€69.99

Learning Outcomes

  • Learn about the fundamentals of the Human-Robot Interaction (HRI) area.
  • Understand HRI design concepts such as: interface design, productivity, and safety.
  • Study evaluation metrics of HRI systems such as: mission effectiveness, human and robot efficiency, cognitive indicators, among others.
  • Understand design concepts such as level of autonomy from the HRI point of view, types of robot models, team structure, among others.
  • Design the taxonomy of an HRI system
  • Measurement of human factors such as mental and physical work demand, sleepiness, among others.
  • Artificial intelligence applications in HRI systems
  • Design and evaluate HRI systems for different applications

Learning Content

  • Glimpse of the course
  • Introduction to robotics
  • Introduction to Human-Robot Interaction (HRI)
  • HRI system design
  • HRI Application Case Study
  • Congratulations and farewell from the course


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Collaborative Robotics Engineer Modern Robotics: Mechanics, Planning, and Control Specialization

This Specialization provides a rigorous treatment of spatial motion and the dynamics of rigid bodies, employing representations from modern screw theory and the product of exponentials formula. Learners with a freshman-level engineering background will quickly learn to apply these tools to analysis, planning, and control of robot motion. Learners understanding of the mathematics of robotics will be solidified by writing robotics software. Students will test their software on a free state-of-the-art cross-platform robot simulator, allowing each learner to have an authentic robot programming experience with industrial robot manipulators and mobile robots without purchasing expensive robot hardware. It is highly recommended that Courses 1-6 of the Specialization are taken in order, since the material builds on itself.

Provider
www.coursera.org
Target
  • Engineering students (especially those with a freshman-level background)
  • Those new to robotics and automation
  • Programmers and software developers interested in robotics applications
  • Robotics enthusiasts and hobbyists looking to deepen their knowledge
  • Professionals in industries related to automation and robotics
Sector
  • Robotics and automation
  • Mechanical engineering
  • Software development
  • Educational institutions focusing on STEM
  • Research and development in robot technology
Area
  • Robot dynamics and control
  • Robotics software programming
  • Simulation and modeling of robotic systems
  • Motion planning and control systems
  • Application of modern screw theory and robotics mathematics
Method
Online
Certification
Yes
Duration
4 months at 10 hours a week
Assessment
No
Cost
Free

Learning Outcomes

  • Learn in-demand skills from university and industry experts
  • Master a subject or tool with hands-on projects
  • Develop a deep understanding of key concepts
  • Earn a career certificate from Northwestern University

Learning Content

  • Foundations of Robot Motion
    • Learn fundamental material regarding robot configurations
    • Understand configuration space (C-space), degrees of freedom, and holonomic constraints
    • Represent spatial velocities and forces as twists and wrenches
  • Robot Kinematics
    • Solve forward kinematics using the product-of-exponentials formula
    • Study velocity kinematics, statics, and inverse kinematics
    • Analyze robots with closed chains
  • Robot Dynamics
    • Learn numerical algorithms for forward and inverse dynamics
    • Plan robot trajectories subject to dynamic constraints
  • Robot Motion Planning and Control
    • Plan motions in the presence of obstacles
    • Use feedback control to track planned motions
    • Explore grid-based and randomized motion planning techniques
  • Robot Manipulation and Wheeled Mobile Robots
    • Model kinematics and forces for robot grasping tasks
    • Plan and control omnidirectional and nonholonomic wheeled robots
  • Capstone Project: Mobile Manipulation
    • Control a mobile manipulator to perform a pick-and-place task
    • Integrate trajectory planning, odometry, and feedback control
    • Test software on the KUKA youBot simulator


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Field Battery Systems Engineer/Materials Science Battery Recycling 235

This course introduces recycling policies and processes for rechargeable batteries, especially electric vehicle (EV) batteries. As more and more EV batteries reach end-of-life, finding ways to reuse their components is essential for environmental, financial, and ethical reasons. Currently, there are two main methods used to recycle EV batteries: hydrometallurgy and pyrometallurgy. Neither of these are ideal methods, but a third option, direct recycling, is being developed. Each process requires battery specialists and recyclers to be aware of the hazards and safety policies related to rechargeable battery handling, as well as the major steps involved in dismantling a battery. After completing this course, users will have a basic understanding of the reasons for recycling EV batteries, some of the policies that support battery recycling, and the various recycling processes.

Provider
Tooling U-SME
Target
  • Engineers
  • Plant Managers
  • Battery Recycling Specialists
  • Environmental and Sustainability Professionals
Sector
  • Automotive
  • Electronics Recycling
  • Energy Storage
  • Environmental Services
  • Manufacturing
Area
  • Recycling processes of EV battery materials
  • Hydrometallurgy, Pyrometallurgy, and Direct Recycling
  • Battery dismantling and hazardous waste management
Method
Online learning
Self-paced modules
10 structured lessons
Certification
Yes
Duration
Self-paced modules
Assessment
-
Cost
-

Learning Outcomes

  • Understand the importance and policies supporting EV battery recycling
  • Identify recyclable components in batteries
  • Recognize hazards and safety regulations in battery recycling
  • Learn dismantling procedures and shredding techniques
  • Differentiate between hydrometallurgical, pyrometallurgical, and direct recycling methods

Learning Content

  • 10 structured lessons


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Field Battery Systems Engineer Lithium-Ion Batteries - From Chemistry to Engineering

In this comprehensive course, you'll delve into the science and engineering of one of the most important energy storage technologies of our time. Whether you're an engineer, scientist, or simply curious about energy storage, this course is perfect for anyone interested in the future of sustainable energy. From the basics of lithium-ion battery chemistry to advanced material concepts, you'll understand how these batteries work and how they're used in a wide range of applications, including electric vehicles, portable electronics, and renewable energy systems. The curriculum of this course will allow you a step-by-step introduction by covering the following topics: • Basics of Energy Storage - To grasp the wide-ranging impact of energy storage technologies, we will have a look into different types, application areas and global players. • Electrochemistry - As the foundation to understand the following chapters and the battery technology, we will cover a few simply basics of electrochemistry to get you started. • Setup and Performance - You will learn about the essential parts of any (Li-ion) battery and how their performance is affected e.g. by temperature, charging speed and many more. • Cell Components - Each component and material of a Li-ion battery will be discussed in detail with requirements, advantages, disadvantages and current research trends. You will understand how a cell can be tailored to individual applications. • Cell Manufacturing - We will cover the steps involved in battery manufacturing, cover typical cell types and safety aspects. • Economics of Battery Storage - You will learn about the battery development roadmap, material cost, demand, supply chain risk and future trends.

Provider
udemy
Target
  • Engineers
  • Scientists
  • Students in energy-related fields
  • Professionals in renewable energy sectors
  • Individuals interested in energy storage technologies
  • Enthusiasts of electric vehicles and portable electronics
Sector
  • Energy Storage
  • Renewable Energy
  • Automotive (Electric Vehicles)
  • Electronics Manufacturing
  • Material Science and Engineering
Area
  • Lithium-Ion Battery Technology
  • Electrochemistry
  • Battery Manufacturing Processes
  • Energy Economics
  • Sustainable Energy Solutions
Method
online
Certification
yes
Duration
6 hours on-demand video
Assessment
-
Cost
€79.99

Learning Outcomes

  • Basics of Energy Storage - Storage types, necessity of energy storage, global players, interdependence of Battery performance parameters
  • Electrochemistry - Fundamentals of electrochemistry to gain a deeper understanding of later discussed challenges and development goals
  • Setup and Performance - Battery component introduction, losses during charging/discharging, and impacts on the performance and lifetime of the Battery
  • Cell Components - Detailed analysis of state-of-the-art electrode materials, separator, and electrolyte
  • Cell Manufacturing - Essential steps to build a Battery, cell geometries, and safety considerations
  • Economics of Battery Storage - Challenges in Battery pricing, supply chains, material supply, development roadmaps, and R&D objectives

Learning Content

  • Introduction
  • Basics of Energy Storage
  • Electrochemistry of Batteries
  • Setup and Performance
  • Cell Components
  • Cell Manufacturing
  • Economics of Battery Storage
  • Summary


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Field Battery Systems Engineer/Materials Science Battery Technologies

This free online course will teach you about the science behind batteries and their function. We will take you through the different battery types and how they work. Learn about safety equipment and the safety precautions of battery technologies you need to know to guard against battery failure. You'll also learn about solar batteries, their components, and their benefits. This free online course will introduce you to the concept of battery technologies and everything you need to know about these power sources. Have you ever wondered how a battery functions or what the making and construction of it entails? This course will teach you about the different essential components and models. You will learn about other principles and laws that apply to battery systems, such as Ohm's law and Faraday's first and second laws. You will acquire rudimentary knowledge of battery construction and other defining elements of batteries. Learn about the electrochemistry of batteries as well. We will discuss the various types and uses of batteries and cells, such as lead-acid batteries, alkaline batteries, Ni-CD batteries, lithium batteries, along with primary and secondary cells. We'll also explain concepts like dry cells, galvanic cells, Daniel cells, and half-cell potential. Furthermore, this course delves into the different topics as it relates to battery performances. Do you know what alternative power is? Do you know the importance of batteries or care to find out how to maintain your batteries for effective performances? Find the answers to these questions as you progress in the course. You will learn about the importance of batteries, discover how better you can handle your batteries or cells for optimum results. We'll also explain the safety precautions required and a battery's lifecycle. Some of the key terms you will learn about are electromotive force, fuel cells, and humidifiers. We will explain how to watch out for warning signs of battery failure and the reasons for short circuits. Safety equipment and troubleshooting a battery are areas that are also adequately discussed. Next, we will introduce you to battery efficiencies, capacity ratings, as well as the concept of cells in series and in parallels. Batteries are a significant source of power in today's world. Often, when you are required to power up a device or machinery, you rely on the capabilities of batteries. Understanding the underlying mechanism and related technologies of batteries is also an essential aspect of its use. This concise course on battery technologies will empower you to understand the mechanism of a battery and its related technologies. We also discuss the importance of a battery and the reasons why you need to adhere to all battery safety precautions. You will also learn what you need to do to avoid battery failure. This course especially highlights battery supplies in automobiles. Get abreast with all the important information you need to know about battery technologies, performances and maintenance. This course will be of great benefit to those studying and working in the electrical field.

Provider
alison
Target
  • Students in electrical engineering or related fields
  • Professionals working in the electrical or automotive industries
  • Individuals interested in renewable energy and battery technologies
  • Hobbyists and DIY enthusiasts working with batteries
Sector
  • Education and training
  • Renewable energy
  • Automotive industry
  • Electrical engineering
Area
  • Battery technology and electrochemistry
  • Safety and maintenance of batteries
  • Performance and efficiency of battery systems
  • Applications of batteries in various devices and machinery
Method
online
Certification
yes
Duration
1.5-3 Avg Hours
Assessment
yes
Cost
free

Learning Outcomes

  • Distinguish between reversible and irreversible cells
  • Identify oxidising and reducing agents
  • Explain the standard Emf of a cell
  • Describe the relationship between Emf and free energy
  • Discuss internal resistance and cells in series
  • Explain metal and hydrogen displacement
  • Describe the life cycle of a battery
  • Discuss the working principle of dry cells
  • Explain solar batteries and their importance
  • Outline the procedures for battery maintenance

Learning Content

  • Module 1 Batteries and Electrochemicals
    • This module explains what batteries and electrochemical are, their constructions and their workings. In this module, you will see the different types of batteries, their compositions, and the various ways in which these batteries work.
  • Module 2 Single Electrode Potential
    • This module explains what single electrode potential is all about, its constructions and workings. In this module, you will learn about terms such as Half-cell potential, thermodynamics of a reversible cell
  • Module 3 Battery Performance and Maintenance
    • In this module: Battery Performance and Maintenance, you will be introduced to topics such as primary and secondary cells. You will learn about Ni-CD batteries, solar batteries and how they work. The module will also discuss fuel cells in batteries and safety percautions
  • Module 4 Course assessment


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Field Battery Systems Engineer/Data-driven Decision Making Complete A.I. & Machine Learning, Data Science Bootcamp

This course is focused on efficiency: never spend time on confusing, out of date, incomplete Machine Learning tutorials anymore. We are pretty confident that this is the most comprehensive and modern course you will find on the subject anywhere (bold statement, we know). This comprehensive and project-based course will introduce you to all of the modern skills of a Data Scientist and along the way, we will build many real world projects to add to your portfolio. You will get access to all the code, workbooks and templates (Jupyter Notebooks) on Github, so that you can put them on your portfolio right away! We believe this course solves the biggest challenge to entering the Data Science and Machine Learning field.

Provider
udemy
Target
  • Aspiring data scientists and machine learning engineers
  • Beginners with no prior programming experience
  • Individuals with some programming knowledge wanting to deepen their understanding of data science
  • Professionals looking to transition into data science or machine learning roles
Sector
  • Data Science
  • Machine Learning
  • Artificial Intelligence (AI)
  • Technology/Information Technology (IT)
Area
  • Data exploration and visualization
  • Neural networks and deep learning
  • Model evaluation and analysis
  • Programming in Python
Method
online
Certification
yes
Duration
43.5 hours on-demand video
Assessment
no
Cost
€99.99

Learning Outcomes

  • Become a Data Scientist and get hired
  • Master Machine Learning and use it on the job
  • Deep Learning, Transfer Learning and Neural Networks using the latest Tensorflow 2.0
  • Use modern tools that big tech companies like Google, Apple, Amazon and Meta use
  • Present Data Science projects to management and stakeholders
  • Learn which Machine Learning model to choose for each type of problem
  • Real life case studies and projects to understand how things are done in the real world
  • Learn best practices when it comes to Data Science Workflow
  • Implement Machine Learning algorithms
  • Learn how to program in Python using the latest Python 3
  • How to improve your Machine Learning Models
  • Learn to pre process data, clean data, and analyze large data
  • Build a portfolio of work to have on your resume
  • Developer Environment setup for Data Science and Machine Learning
  • Supervised and Unsupervised Learning
  • Machine Learning on Time Series data

Learning Content

  • Introduction
  • Machine Learning and Data Science Framework
  • Data Science Environment Setup
  • Pandas: Data Analysis
  • Matplotlib: Plotting and Data Visualization
  • Scikit-learn: Creating Machine Learning Models
  • Supervised Learning: Classification + Regression
  • Milestone Project 1: Supervised Learning (Classification)
  • Milestone Project 2: Supervised Learning (Time Series Data)
  • Data Engineering


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Battery Systems Engineer/Automation and Robotics Collaborative Robotics in Industry Specialization

Collaborative Robotics in Manufacturing merges traditional manufacturing with cutting-edge robotics, equipping learners with skills to navigate modern manufacturing. Foundational Industrial Manufacturing knowledge highlights robotics' role in enhancing efficiency and precision. Introductory Mechatronics integrates engineering principles for robotic system development. Understanding Introductory Electronics aids in comprehending digital control circuitry and sensor technologies. Applied Physics principles furnish analytical tools for robotic system design. Graduates excel in Robotic Manipulator and Gripper Design, integrating Mechanical Components with Digital Control Circuitry for optimized performance. Sensor & Transducer Technology mastery enables real-time monitoring and control, enhancing productivity. Drive Systems expertise ensures adaptability to diverse manufacturing environments. Troubleshooting in Mechatronic Systems and System Design using MATLAB-Simulink enables efficient issue resolution. Robot Programming skills empower precise and efficient control. Robotic Vision Systems and Machine Vision augment automation and quality control. Integration of IIoT technologies drives efficiency in collaborative robotic systems. Graduates find career opportunities as Automation Engineers and Robotic Designers, shaping the future of manufacturing with innovation and efficiency. The projects proposed in the courses under the specialization, “Collaborative Robotics in Industry” are having a sequence of tasks in each and every project. They need to design a robotic manipulator, design an appropriate end effector, should make the interface with the electronic control system. For heavy load handling purpose utilize the electro-hydraulic systems. Prepare a blueprint to carry out this project comprising all the essentials like appropriate sensors, drive systems, electronic circuitry and fluid circuitry. Interface the developed robot with a control system. Find out an appropriate ICs and essential electronic circuit elements. Choose prototyping platforms either Arduino or Raspberry Pi. Apply the IIoT concepts. Choose a relevant gateway and connectivity to monitor its functioning and enhance the productivity.

Provider
Coursera
Target
  • Engineering students
  • Manufacturing professionals
  • Robotics enthusiasts
  • Automation engineers
Sector
  • Manufacturing
  • Robotics
  • Automation
Area
  • Industrial robotics
  • Mechatronics
  • Robot programming
  • Sensor technology
  • IIoT integration
Method
Online
Certification
Yes
Duration
1 month at 10 hours a week
Assessment
No
Cost
Free

Learning Outcomes

  • Mechatronics systems and their utility
  • Interfacing of sensors and transducers
  • Interfacing of drive systems with electronic control systems
  • Learn in-demand skills from university and industry experts
  • Master a subject or tool with hands-on projects
  • Develop a deep understanding of key concepts
  • Earn a career certificate from L&T EduTech

Learning Content

  • Fundamentals of Robotics & Industrial Automation
  • Robotics Engineering & Applications
  • Industrial Fluid Systems & Smart Factory Automation


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Battery Systems Engineer/Mechanical Engineering Machining Fluids and Cutting Tools

This free online course introduces you to the importance of machining and the concept of manufacturing in the machining process. The course also provides insights into the role of cutting fluids in machining. It is arranged systematically and presented clearly so you will easily be able to understand the given concepts. The second part of the course gives emphasis to topics such as the various single and multi-point cutting tool processes and the importance of chip breakers in the machining process. Next, you will learn the concepts of generatrix and directrix in the turning process and the types of cutting edge angles in the machining process. These concepts come under the cutting tool process of machining. Finally, the course gives emphasis on the various force components in the metal cutting operation and the computation of forces using Merchant Circle Analysis Method. Upon completion of this course, you will learn about various machining fluids and the use of standard and special cutting tools in the machining process. The Machining Fluids and Cutting Tools course is basic, but informative and will interest mechanical undergraduate students or those who have an interest in these topics.

Provider
Alison
Target
  • Mechanical undergraduate students
  • Individuals with an interest in machining and manufacturing processes
Sector
  • Manufacturing and engineering
Area
  • Machining processes
  • Cutting tools and machining fluids
  • Metal cutting operations
Method
Online
Certification
Yes
Duration
3-4 Hours (Average)
Assessment
Yes
Cost
Free

Learning Outcomes

  • Recognize the need for studying manufacturing in the machining process.
  • Discuss the importance of machining.
  • Define what manufacturing is in the machining process.
  • Classify the types of manufacturing and material removal processes.
  • List out the various single and multi-point cutting tool processes.
  • Define what the severe plastic deformation process is.
  • Discuss the types of chips and the importance of chip breakers.
  • Explain the concepts of generatrix and directrix in the turning process.
  • Describe the geometry of single-point turning tools.
  • Discuss the types of cutting edge angles and the reference systems.
  • Identify the various force components in the metal cutting operation.
  • Compute various forces using the Merchant Circle Analysis Method.

Learning Content

  • Module 1: Introduction and Importance of Machining
    • Importance of machining
    • Types of manufacturing and material removal processes
    • Single and multi-point cutting tool processes
    • Severe plastic deformation process
    • Shear zones
    • Types of chips and the importance of chip breakers
  • Module 2: Cutting Tool and Cutting Forces
    • Various types of cutting tools and cutting forces
    • Force components in metal cutting operations
    • Computation of forces using the Merchant Circle Analysis Method
  • Module 3: Course Assessment


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Battery Systems Engineer Algorithms for Battery Management Systems Specialization

In this specialization, you will learn the major functions that must be performed by a battery management system, how lithium-ion battery cells work, and how to model their behaviors mathematically. You will also explore how to write algorithms to estimate state-of-charge, state-of-health, remaining energy, and available power, as well as how to balance cells in a battery pack.

Provider
www.coursera.org
Target
  • Engineers and Technical Professionals
  • Researchers and Academics
  • Industry Professionals
  • Data Scientists and Algorithm Developers
  • Advanced Enthusiasts and Self-Learners
Sector
  • Lithium-Ion Battery Technology and Mathematical Modeling
Area
  • Energy Storage Solutions
  • Electric Vehicles
  • Renewable Energy Systems
Method
Online
Certification
Yes
Duration
3 months at 10 hours a week
Assessment
No
Cost
Free

Learning Outcomes

  • How to design equivalent-circuit models for lithium-ion battery cells
  • How to implement state-of-charge (SOC) estimators for lithium-ion battery cells
  • How to implement state-of-health (SOH) estimators for lithium-ion battery cells
  • How to design balancers and power-limits estimators for lithium-ion battery packs
  • Learn in-demand skills from university and industry experts
  • Master a subject or tool with hands-on projects
  • Develop a deep understanding of key concepts
  • Earn a career certificate from the University of Colorado System

Learning Content

  • Introduction to Battery-Management Systems
    • Understand how lithium-ion battery cells work
    • Understand the requirements of a battery-management system
  • Equivalent Circuit Cell Model Simulation
    • How to design equivalent-circuit models for lithium-ion battery cells
  • Battery State-of-Charge (SOC) Estimation
    • How to implement state-of-charge (SOC) estimators for lithium-ion battery cells
  • Battery State-of-Health (SOH) Estimation
    • How to implement state-of-health (SOH) estimators for lithium-ion battery cells
  • Battery Pack Balancing and Power Estimation
    • How to design balancers and power-limits estimators for lithium-ion battery packs
  • Evaluating and Communicating Results
    • Analyzing and interpreting the results of battery models
    • Communicating findings to stakeholders
    • Evaluating the effectiveness of battery-management algorithms


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Modern Robotics: Mechanics, Planning, and Control Specialization

Mid Level Employee
Foundations


Introduction to Human-Robot Interaction

Mid Level Employee
Foundations


Safety and Usability

Expertise in ensuring the safety and usability of collaborative robotics systems in industrial settings

Industrial Automation and Robotics

Mid Level Employee
Foundations

Design for Mechanical Assembly and Constraint Based Design

Mid Level Employee
Foundations

Collaborative Robotics in Industry Specialization        

Mid Level Employee
Foundations


Battery Recycling 235

Mid Level Employee
Foundations

Mechanical Engineering

Knowledge of the mechanical processes involved in the disassembly and recycling of electronic equipment.